Questions: Which of the following statements is consistent with Boyle's Law concerning an ideal gas?
At constant temperature and moles, a plot of volume versus pressure is linear.
At constant pressure and volume, a plot of temperature versus moles is linear.
At constant pressure and moles, a plot of temperature versus volume is linear.
At constant temperature and moles, a plot of pressure versus the inverse of volume is linear.
At constant temperature and pressure, a plot of moles versus volume is linear.
- Your answer is incorrect.
Transcript text: Which of the following statements is consistent with Boyle's Law concerning an ideal gas?
At constant temperature and moles, a plot of volume versus pressure is linear.
At constant pressure and volume, a plot of temperature versus moles is linear.
At constant pressure and moles, a plot of temperature versus volume is linear.
At constant temperature and moles, a plot of pressure versus the inverse of volume is linear.
At constant temperature and pressure, a plot of moles versus volume is linear.
- Your answer is incorrect.
Solution
Solution Steps
Step 1: Understanding Boyle's Law
Boyle's Law states that for a given amount of gas at constant temperature, the pressure of the gas is inversely proportional to its volume. Mathematically, this is expressed as:
We need to determine which statement is consistent with Boyle's Law. Let's analyze each option:
At constant temperature and moles, a plot of volume versus pressure is linear.
According to Boyle's Law, \( PV = \text{constant} \), so \( V \) is inversely proportional to \( P \). This means a plot of \( V \) versus \( P \) would be a hyperbola, not a linear relationship.
At constant pressure and volume, a plot of temperature versus moles is linear.
This statement does not relate to Boyle's Law, which involves pressure and volume, not temperature and moles.
At constant pressure and moles, a plot of temperature versus volume is linear.
This statement is related to Charles's Law, not Boyle's Law.
At constant temperature and moles, a plot of pressure versus the inverse of volume is linear.
Since \( P \propto \frac{1}{V} \), a plot of \( P \) versus \( \frac{1}{V} \) would indeed be linear, consistent with Boyle's Law.
At constant temperature and pressure, a plot of moles versus volume is linear.
This statement is related to Avogadro's Law, not Boyle's Law.
Final Answer
The statement consistent with Boyle's Law is:
\[
\boxed{\text{At constant temperature and moles, a plot of pressure versus the inverse of volume is linear.}}
\]